Apparatus and method for splicing all-dielectric self-supporting fiber optic cable

ABSTRACT

An apparatus and method for accessing and/or repairing a select subset of fibers in an ADSS fiber optic cable. The apparatus includes a bousing extending from a first end to a second end. A first fiber optic spiice tray is positioned within the housing closer to the first end than to the second end. A second fiber optic spiice tray is positioned within the housing and spaced apart from the first spiice tray. A tension member extends through the housing and includes a first mechanical connector near the first end and a second mechanical connector near the second end. The connectors provide art attachment location for deadends at either end for transferring tension from the undamaged portion of the ADSS fiber optic cable.

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a National Stage of International Application No.PCT/US2013/032890 entitled “Apparatus And Method For SplicingAll-Dielectric Self-Supporting Fiber Optic Cable” filed 19 Mar. 2013,which claims the benefit of U.S. Provisional Patent Application Ser. No.61/612,863 entitled “Apparatus And Method For Splicing All-DielectricSelf-Supporting Fiber Optic Cable” filed 19 Mar. 2012. The entirecontents and disclosures of these related applications are herebyincorporated herein by reference.

FIELD OF THE INVENTION

This invention relates to an apparatus and method for splicingall-dielectric, self-supporting (ADSS) fiber optic cable.

BACKGROUND OF THE INVENTION

Fiber optic cables are widely used in communications systems.Communications services provided over fiber optic cables are typicallyeither supported by a steel messenger strung between structures (“strandand lash” method), or are of a self-supporting nature using internalstrength members. With reference to FIG. 1 there are illustrated aspectsof a prior art “strand and lash” installation. Fiber optic cable 10 issupported by a steel messenger 20 strung between support structures 60.The fiber optic cable is physically secured to the steel messenger 20using a lashing wire 30. This lashing wire is usually made of aluminumor steel. The lashing wire is wrapped around both the fiber optic cableand the messenger, and is usually conductive. FIG. 1 also illustratessplice closures 40 that can be mounted inline, and a short section ofrepair fiber 50 between the two closures.

All-dielectric, self-supporting (ADSS) fiber optic cable contains nometal or electrically conductive material, and has the capability ofsupporting its own suspension. Aramid yarns or other non-metallicstrength members are arranged so that the tensile load of the cable isapplied to the strength members and not the optical fibers. Therefore noseparate steel messenger is required. Because the sheath and strengthmembers are integral to the cable's strength carrying ability, theintegrated cable must be relieved of tension before the sheath can becut (which is required to access internal fibers). Devices that are usedto connect the cables to supporting structures must grip the cables in amanner such that the tensile load from the cable is properly transferredfrom the cable strength members through the cable sheath to thesupporting apparatus, without damaging the internal optical fibers.

FIG. 2 illustrates an ADSS fiber optic installation, whereby ADSS fiberoptic cable 70 is supported by a series of support structures 60,typically utility poles. At each location where access to the fiber isrequired, the cable is dead-ended (an industry term meaning that thecable tension is transferred to a supporting structure) using a devicethat is of varying design. For example, FIG. 2 illustrates two suchdesigns: a wedge type deadend 90 and a wire wrap “preform” style 80. Thewedge type deadend uses a fixed outer bracket with a sliding wedge thattransfers line tension into the wedge, effectively gripping the cable ontwo sides. One example of a wedge type deadend is that disclosed in U.S.Pat. No. 5,647,046 to Cowen et al. titled “Wedge Deadend to SupportAerial Cables”. The wire wrap preform style is similar to a Chinesefinger in that the deadend apparatus “grabs” the entire circumference ofthe cable once it is wrapped around the cable. One example of such awire wrap preform style is the Fiberlign product(s) manufactured by PLP(Preformed Line Products) of Cleveland, Ohio. The remaining portion ofthe cable that is not under tension is routed into a splice closure 100.An example of a splice closure 100 is the Coyote Dome products availablefrom Preformed Line Products of Cleveland, Ohio.

ADSS has inherent benefits over lashed systems. Since the ADSSinstallation only requires the installation of a single cable, theinstallation method is faster, and therefore less expensive than theinstallation of a lashed system. Constructing cable is a 3 step processwith a strand and lash system. First, the steel messenger is strungbetween supporting structures and pulled to tension. Second, the fiberoptic cable is placed adjacent to the steel messenger cable. Third, asteel wire is “lashed” around both, holding them together. ADSSconstruction is simply step one: stringing the cable and pulling totension. ADSS can also be installed in applications where its dielectricnature is a significant requirement, such as in the supply zone (wherepower lines are typically installed) of a jointly used pole line. Thishas made ADSS cable very attractive for power companies andmunicipalities that have access and qualified personnel to work withinthe power supply area of the pole. The metal-free, dielectric designalso eliminates the bonding and grounding requirements of thetraditional steel supported fiber optics installations.

ADSS cable also has drawbacks. Most notably, the cable itself holds thetension required to stay suspended. Consequently, accessing the fiberwithin the cable currently requires a dead-end assembly that can holdthe line tension while giving access to the internal fibers. Incontrast, again referring to the traditional strand and lash arrangementof FIG. 1, a cable damaged mid-span is illustrated as repaired byattaching two splice closures 40 and a short section of repair fiber 50between the two closures. This would usually require breaking all of thefibers within the cable and re-splicing original cable on both ends torepair the cable.

A variety of factors can cause damage to fiber optic cables, includinginclement weather, vehicle accidents, tree branches, malicious orinadvertent human-related damage, and animal-related damage (such assquirrels chewing through the sheath of a cable). All of these wouldresult in damaging the fibers therein. Current techniques for repairingmid-span damage to the ADSS cable, however, generally require completelysevering and dead-ending the cable at two adjacent structures andplacing two splice closures, and the replacement of the entire span offiber optic cable. FIG. 2 depicts a known ADSS fiber optic installationafter the repair of mid-span damage. The ADSS fiber optic cable 70 isdead-ended at the structures adjacent to the damage. A repair section110 is then constructed between the structures. The original cable 70 isspliced to the repair fiber 110 using traditional closures 100, whichare typically attached to either the pole or the sheathed ADSS cable.

While this has historically been an acceptable construction practice inthe industry, as larger fiber count cables are in service (often 288count and up), the labor and material cost of dead-ending and splicingin two places to repair minor mid-span damage can be substantial. Theaddition of a new span of fiber often requires a construction crew, andthe splicing at each end can take a substantial amount of time. For atypical 288 count cable with only a few fibers damaged, this couldresult in an entire day of construction and several days of splicing. Inaddition to the cost, since every fiber must be spliced, arrangementsmust be made to render the cable out of service. Depending on the natureof the communications circuits carried by the fiber optic cable, thiscould result in downtime costs or penalties.

U.S. Pat. No. 8,001,686 discloses a method of taut sheath splicing ofADSS cable that includes a clamp for connecting to a first portion ofthe fiber optic cable and a bail for connecting the clamp to a supportstructure (the utility pole) and a splice closure for splicing a secondportion of the fiber optic cable to one or more additional fiber opticcables, and means for connecting the splice closure to the bail (seeU.S. Pat. No. 8,001,686—column 1, line 64 to column 2, line 3). Oneexample of splicing two separate cables together is a drop to a customer(see U.S. Pat. No. 8,001,686—column 1, lines 19-22). In particular, toconnect a drop fiber to a customer into an ADSS cable that does not havean existing splice point, but the disclosure of U.S. Pat. No. 8,001,686requires the presence of a bail and support structure.

There remains a need for a method and apparatus to allow the repair orsegregation of a subset of one or more fibers from a larger group withinan ADSS cable, preferably also permitting the use of a mid-span device.

SUMMARY OF THE INVENTION

An apparatus for splicing a fiber optic cable in a manner wherein one ormore fibers within the sheath can be repaired or otherwise segregatedwhile the remaining fibers can be left in service. The apparatusprovides for two splicing compartments separated by at least oneenclosed channel for both the repair fiber and the undamaged portion ofthe cable. One or more embodiments of this invention are particularlyapplicable to splicing and/or repairing all dielectric, self-supporting(ADSS) fiber optic cable. In one embodiment the apparatus is augmentedby a strength member designed to withstand the tension associated withan ADSS cable. In another embodiment the housing defining the spacedapart splicing compartments and enclosed channel connecting the twocompartments acts as the tension member and has sufficient strength towithstand the load associated with an ADSS cable.

In an ADSS cable the longitudinal line tension is borne by both theinternal strength members and the cable sheath, working together as asystem. Since the sheath cannot be opened without jeopardizing thestrength of the cable system, it can be referred to as a taut sheath. Inone embodiment there is an aerial taut sheath closure that preferablycan interoperate with the ADSS deadends currently on the market. Tautsheath splicing of ADSS fiber optic cable can be performed withoutincluding any planned extra cable at installation. This invention can belocated mid-span, or at a support position, and permits access to selectsubsets of fibers within a fiber optic cable, even if the cable isself-supporting. This allows for simplified repair and/or easier accessin cable installations (i.e. new customers and/or expansion andbuild-out of an existing fiber network) where no extra cable or polereal estate is available.

In another embodiment, there is an apparatus useful in the repair of alarge-count fiber optic cable that has had either sheath damage or lightdamage to internal fibers. The enclosure can be installed in-line andsupport full tension, with enough slack created to route the undamagedfibers through a channel of the enclosure, then replacing the damagedfiber with repair fiber (spliced in each end of the apparatus) and thenpreferably routing damaged fibers through a separate loose fiberpathway.

In another embodiment there is an apparatus for accessing select fibersin an ADSS fiber optic cable. The apparatus includes a housing extendingfrom a first end to a second end, wherein the housing is weatherresistant when closed by a lid. A first fiber optic splice tray ispositioned within the housing closer to the first end than to the secondend. A second fiber optic splice tray is positioned within the housingand spaced apart from the first splice tray. The second tray is closerto the second end than to the first end. The apparatus further includesa tension member extending through the housing and including a firstmechanical connector external to the housing near the first end and asecond mechanical connector external to the housing near the second end.

In one refinement the housing has an axial length between the first endand the second end that is at least six feet.

In another refinement the tension member is a fiberglass rod.

In another refinement the first mechanical connector is a closed loopand the second mechanical connector is a closed loop.

In another refinement each mechanical connector is attached to thetension member by internal threading that corresponds to externalthreading present on at least a portion of the tension member.

In another refinement each mechanical connector is integrally formedwith the tension member.

In another refinement the first splice tray is connected to the secondsplice tray by a plurality of repair fibers.

In another refinement the lid is a hinged lid that opens to permitaccess to an internal cavity of the housing.

In another refinement the housing defines a first end compartment at thefirst end in which is the first fiber optic splice tray is positionedand a second end compartment at the second end in which the second fiberoptic splice tray is positioned.

In another refinement the housing further defines a body portionconnecting the first end compartment to the second end compartment.

In another refinement the body portion defines at least two differentchambers that are each open to both the first end compartment and thesecond end compartment.

In another refinement the body portion defines a first chamber, a secondchamber, and a third chamber, and the tension member is positionedwithin the first chamber.

In another refinement the first splice tray is connected to the secondsplice tray by a plurality of repair fibers, and the repair fibers arepositioned within the second chamber.

In another refinement the housing defines a mounting hole in the bodyportion.

In another refinement the lid is detachable from the housing to permitaccess to an internal cavity of the housing.

In another refinement the first end of the housing defines a firstchannel extending from a location on a first perimeter of the first endto a first internal location on the first end, and the second end of thehousing defines a second internal channel extending from a location on asecond perimeter of the second end to an internal location on the secondend, and the first channel and the second channel are sized to receive aportion of the tension member.

In another refinement the apparatus further includes a seal memberpositioned at each end of the housing and configured to seal the channelin which the tension member is positioned on each end.

In another refinement the housing defines a first fiber optic cableopening at the first end, and a second fiber optic cable opening at thesecond end.

In another refinement the apparatus further includes a first cable clampattached to the housing near the first fiber optic cable opening, and asecond cable clamp attached to the housing near the second fiber opticcable opening.

In another refinement the housing defines a recess that contacts the lidwhen the lid is attached to close the housing, and further includes aseal member attached to one of the lid and the recess of the housing.

In another refinement at least one of the housing and the lid include aplurality of locking connectors.

In another refinement the body portion defines at least two differentchambers and includes at least one internal clip configured to positionloose buffer tubes of a fiber optic cable. The internal clip ispositioned within at least one of the chambers of the body portion.

In another refinement each splice tray is secured by a plurality ofclips in a splice closure.

In another embodiment there is a fiber optic cable repair apparatus. Theapparatus includes a weather resistant housing having inline spacedapart fiber optic splice trays positioned respectively in a first endcompartment and a second end compartment of the housing. The apparatusfurther includes a means for retaining tension and connecting to an ADSSfiber optic cable.

In one refinement the means for retaining tension and connecting to anADSS fiber optic cable comprises a tension member extending through thehousing and terminating in a first eyelet connector external to a firstend of the housing and a second eyelet connector external to a secondopposite end of the housing.

In another refinement the means for retaining tension and connecting toan ADSS fiber optic cable comprises the housing being constructed tosupport a load of between 1,000 lbs to 20,000 lbs and further includinga first mechanical connector adjacent to the first end compartment and asecond mechanical compartment adjacent to the second end compartment.

In another refinement the mechanical connectors are integrally formedwith the housing.

In another refinement the housing has an axial length between a firstend and a second end that is at least six feet. The housing includes aremovable lid to permit access to an internal cavity of the housing. Thehousing further defines a body portion connecting the first endcompartment to the second end compartment.

In another refinement the body portion defines at least two differentchambers, and positioned in only one of the chambers are a plurality ofrepair fibers that connect the inline spaced apart fiber optic splicetrays.

In another refinement the housing defines a recess that contacts the lidwhen the lid is attached, and further includes a perimeter seal memberattached to one of the lid and the recess of the housing.

In another embodiment there is a fiber optic cable repair apparatuscomprising a pair of inline spaced apart fiber optic splice trayspositioned within a respective pair of end compartments of a weatherresistant housing. The housing defines a first channel and a secondchannel between the end compartments. The apparatus further includes atension member at least partially positioned within the housing thatextends along an entire length of the housing between the endcompartments and protrudes from the housing at each end.

In one refinement the tension member terminates in a first eyeletconnector external to a first end of the housing and a second eyeletconnector external to a second opposite end of the housing.

In another refinement the housing has an axial length between the firstend and the second end that is at least six feet. The housing has aremovable lid to permit access to an internal cavity of the housing.

In another refinement the housing defines a recess that contacts the lidwhen the lid is closed, and further includes a seal member attached toone of the lid and the recess of the housing.

In another embodiment there is an ADSS fiber optic cable repairapparatus. The apparatus includes a first splice tray positioned in aclosable first compartment. The apparatus further includes a secondsplice tray positioned in a closable second compartment. The secondcompartment is spaced apart from the first compartment. The apparatusalso includes a sleeve being closable to define a weather resistantinternal chamber that fluidly connects a first opening in the firstcompartment to a second opening in the second compartment. The apparatusfurther includes a tension member extending between a first end and asecond and having a first mechanical connector closer to the first endthen the second end, and a second mechanical connector closer to thesecond end then the first end. The tension member is separatelyconnected to each of the first end compartment and the second endcompartment and the sleeve.

In one refinement each end compartment includes a lid and defines arecess with a seal attached thereto that contacts the lid when the lidis closed.

In another refinement the sleeve has an adjustable length.

In another refinement the first end compartment is connected to thesecond end compartment by a plurality of repair fibers.

In another refinement the plurality of repair fibers extend between athird opening in the first end compartment and a fourth opening in thesecond end compartment. The plurality of repair fibers are notpositioned within the internal chamber of the sleeve.

The present invention also includes various methods of repairing orexpanding a fiber optic network using the apparatus of the presentinvention.

In one embodiment there is a method of repairing mid-span damage in anADSS fiber optic cable. The method comprises attaching a bridging devicethat encloses the damaged portion of the cable. The apparatus includes aload bearing member that is connected to a first undamaged portion ofthe cable and to a second undamaged portion of the cable. The damagedportion of the cable is between the first and second undamaged portionsof the cable. The method further comprises removing a portion of anouter sheath of the cable and splicing a subset of a plurality of thefibers through a pair of splice trays enclosed in the bridging devicewhen a lid of the bridging device is closed.

In another embodiment there is a method of accessing a subset of fibersin an ADSS fiber optic cable under tension. The method comprisestransferring tension from the ADSS fiber optic cable to a strengthmember in a housing. Deadends are attached on either side of the housingthat are connected to connectors at each end of the strength member. Themethod further comprises positioning the ADSS fiber optic cable in thehousing and removing a sheath of the cable from at least a portion ofthe cable within the housing.

In one refinement the method further comprises repairing damaged fibersin the ADSS fiber optic cable by splicing the damaged fibers through apair of splice trays positioned in the housing.

In another refinement the method further comprises separating damagedbuffer tubes from those that are undamaged, and routing the undamagedbuffer tubes through a first channel of a body portion of the housingthat connects the pair of splice closures.

In another refinement the method further comprises the step of closing alid on the housing or attaching a separate lid to the housing.

In another embodiment there is a method of splicing an all-dielectricself-supporting fiber optic cable. The method comprises using a hoist togrip the cable at two points on either side of the location to berepaired. The method further comprises pulling the cable with the hoistsuch that a small amount of slack is created. The method furthercomprises installing deadend hardware to connect the cable to thebridging apparatus. The method further comprises extending and removingthe hoist, thus transferring the tensile loading to the bridgingapparatus. The method further comprises removing the outer sheath of thecable and separating the fibers into those that will not be disturbedand those that need to be accessed. The method further comprises routingthose fibers that are not to be disturbed throughout a first channel inthe bridging apparatus. The method further comprises cutting and routingthe fibers to be spliced into the respective splice trays positioned inend compartments of the bridging apparatus.

In one refinement the method comprises splicing the fibers to be splicedto repair fibers that connected the splice trays.

In another refinement the method comprises splicing at least one of thefibers to be spliced to a departing fiber that is only connected to oneof the splice trays, and splicing the remaining fibers in a buffer tubecontaining that fiber to connecting repair fibers that extend betweenboth splice trays.

In another embodiment there is a method of accessing fibers in an ADSSfiber optic cable. The method comprises transferring tension from theADSS fiber optic cable to a housing. The method further comprisesseparating at least one damaged buffer tube of the ADSS fiber opticcable from at least one undamaged buffer tube of the ADSS fiber opticcable. The method further comprises splicing a plurality of fibers fromthe damaged buffer tube at each end of the housing to a plurality ofrepair fibers connecting the ends.

In one refinement the method further comprises the step of closing a lidof the housing or attaching a separate lid to the housing.

In another embodiment there is a method for mid sheath cable access ofan ADSS fiber optic cable. The method comprises pulling the cable with ahoist such that a slack portion is created. The method further comprisesinstalling dead-end materials to connect the cable to a repairapparatus. The method further comprises extending and removing the hoistafter transferring the tensile loading from the cable to the repairapparatus. The method further comprises removing an outer sheath of thecable and separating a plurality of fibers therein into those that willnot be disturbed and those to be accessed. The method further comprisesrouting the fibers that are not to be disturbed through a bypass portionof the repair apparatus. The method further comprises cutting androuting the fibers to be accessed and splicing the accessed fibers intoa pair of splice trays positioned in a pair of respective end portionsof the repair apparatus. The method further comprises splicing at leastone of the fibers to be accessed to at least one departing fiber. Themethod further comprises splicing the remaining fibers to be accessed toa connecting fiber that extends to the opposing end and splicing theconnecting fiber in the opposite end to corresponding exiting fibers.

BRIEF DESCRIPTION OF THE FIGURES

FIG. 1 illustrates a prior art strand-and-lash installation of fiberoptic cable where the cable is supported by and lashed to a steelmessenger.

FIG. 2 illustrates a prior art ADSS cable installation including arepair made using a prior art apparatus.

FIG. 3 illustrates an embodiment applied to repair damaged fibers at amid-span location along the cable between support structures.

FIG. 4 is a side view of an embodiment illustrating the enclosureinterior with no lid present.

FIG. 5 is a cross sectional view along the 5-5 lines shown in FIG. 4.

FIG. 6 is a cross sectional view along the 6-6 lines shown in FIG. 4.

FIG. 7 illustrates further aspects of the splice tray portion of theapparatus of FIG. 4.

FIG. 8 illustrates an embodiment similar to FIG. 3 but having a separateattachable lid rather than a hinged lid.

FIG. 9 is a cross sectional view along the 9-9 lines shown in FIG. 8.

FIG. 10 is a cross sectional view along the 10-10 lines shown in FIG. 8.

FIG. 11 illustrates another embodiment of two spaced apart splicingcompartments separated by a weather proof channel for receivingunsheathed fiber optic lines.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

An ADSS cable includes several buffer tubes (each typically having 12fibers) and fiberglass fillers that are all wound together. The sheathand internal strength fibers of an ADSS fiber optic cable are integralparts of its self-supporting nature. Thus, there has been no past methodto access internal fibers, because the ADSS fiber optic cable was underthe strain of supporting itself. The capability of being installed“in-line” with the longitudinal tension of the cable facilitates accessto select fibers (or all internal fibers), and thus repair or extensionof service to additional fiber optic cables.

Improvements in the repair process are of use in markets, for example,that primarily use ADSS for fiber-to-the-home (FTTH) deployments orfiber to the subscriber applications. Each pre-defined splice locationentails deploying extra cable and a storage method. Improvements canreduce material costs and labor effort by allowing the fibers to berepaired and/or separated at any point along the span. The capability oftaut sheath splicing decreases the amount of prior planning needed whendeploying a network, thereby reducing costs associated with engineeringtime and increasing the flexibility of the network, while also keepingthe inherent benefits of ADSS cable. Another potential benefit in someapplications is the ability to repair or access individual fibers of anADSS cable without disrupting service to other fibers of the same cable,and the customers served by those fibers. This is significant in thefiber-to-the-home market in which the fiber system is commonly designedin a radial fashion, with no loop capability or alternate feed ability.Also, one or more commercial applications might preferably require onlya single person to install, thus eliminating the requirement forstringing equipment or additional personnel.

One or more embodiments of this invention include an apparatus forsplicing, repairing and/or otherwise gaining access to internal fibersof multi-fiber optical cables at a variety of positions along the cable,including a mid-span position between support structures. One or moreembodiments of the present invention are particularly applicable tosplicing all-dielectric, self-supporting (ADSS) fiber optic cable. TheADSS cable can include a plurality of optical fibers that can beaccessed without severing the ADSS cable or requiring additional slackin the ADSS cable to perform a splice.

With reference to FIG. 3 there is illustrated an apparatus 120 (oftenreferred to herein as a “smartbone” due to its shape) constructed inaccordance with one embodiment of the present invention. The smartboneapparatus 120 preferably includes an eyelet 180 at each end suitable forattachment to a gripping device. The eyelet could accommodate, forexample, either a wedge type clamp 170 or a pre-formed grip type clamp160. FIG. 3 illustrates a mid-span construction such that the tangentcable attachments 150 to poles or support structures 130 would not needto be refitted or disturbed.

In one variation, the smartbone apparatus 120 might instead bepositioned on a supporting structure 130 using, for example, themounting hole 190. In this manner the fiber optic cable on either sideof the supporting structure could terminate on the smartbone, with theapparatus transferring tensile loading from the fiber optic cable to thesupporting structure. The smartbone 120 includes a housing 200 havingtwo splicing compartments 205 separated by a body portion 203.Positioned in body portion 203 are unaffected fiber, repair fiber, and astrength member 210 (see FIG. 4), preferably in separate channels. Theapparatus 120 is mounted under tension, with enough slack created toremove the outer cable sheath and route loose fibers through theenclosure.

With reference to FIG. 4 there are illustrated further aspects ofweather resistant housing 200. Housing 200 preferably has a length ofapproximately six feet in one commercial application. The housing lengthmay vary as appropriate, depending on the application, as is known tothose of ordinary skill in the art. The purpose of the length is toprovide slack in the fibers to be spliced. The cable tension istransferred onto eyelets 180 using commercially available wedge-type orpre-formed deadend grips 160 and 170, as illustrated in FIG. 3. It willbe understood by those of ordinary skill in the art that otherwedge-type grip structures (or other grips such as pre-formed dead-endgrips) are contemplated as within the scope of the invention. The cableis preferably positioned such that when the tension is transferred tothe smartbone apparatus 120, the cable would be pulled longitudinallyfrom either side of the apparatus such that there could be approximatelythree to six inches of slack generated across the length of the device.This slack portion of the cable, and all of the cable within the housing200, would no longer be subject to tensile loading, as the line tensionwould be transferred to the structural load bearing or strength member210 (see FIG. 4).

Tension member 210 and the eyelets 180 would be of sufficient strengthto withstand all anticipated loading using the design rules of theNational Electric Safety Code (NESC), an IEEE standard that specifiesdesign conditions for public utilities, power and communicationfacilities. Eyelets 180 are merely representative of any of a variety ofconnector mechanisms for connecting the tension member 210 to the bailor other common deadend apparatus that grips the fiber optic cable. Theconnector mechanisms might be any of a variety of closed loopstructures, whether circular as with the illustrated eyelets 180, ormight instead be a polygon shape, or even an open hook structure. Itwill be understood, however, that closed loop shapes are preferable toopen hook structures for reducing the possibility of an inadvertentdisconnect. The connector mechanism, such as eyelets 180, could bemanufactured from a variety of materials including, but not limited to,fiberglass, steel, aluminum or plastic or other suitable materials knownto those of skill in the art. Similarly, the tension member 210 mightpreferably be a dielectric material such as fiberglass, but could be anyappropriate tension bearing material such as steel, aluminum, orplastic. Again, it will be understood by those of ordinary skill in theart that a dielectric material and/or a low weight material arepreferred. It is contemplated as within the scope of the invention thatthe eyelets 180 and the strength member 210 might be manufactured as anintegral component, or as separate components. If the tension member andconnector mechanism, such as closed loop eyelets, are not integrallymade, they might be joined by any of a variety of mechanisms such as acompression fitting, threading, or clamped together.

The portion of the cable that is relieved of tension, and/or thestrength members within the cable are preferably secured to the housingvia some type of clamp 220. The clamp 220, for example, might be joinedto the housing 200 by a threaded connection. The clamp 220 will grasp aportion of the cable inside the housing 200 on which the outer sheath isstill present. That is to say, the clamp 220 preferably does not grasp aportion of the ADSS fiber optic cable from which the sheath has beenremoved for accessing select fibers therein. The clamp 220 wouldpreferably be positioned adjacent to gasket 230 and capture the cablesheath by either encircling the cable in a hose clamp style or,alternatively, using a rounded keeper that would reach across the sheathof the cable and press the cable into a similarly rounded portion of thebody. The clamp 220 is intended to keep the slack cable from separatingfrom the apparatus due to normal cable movement. Gasket 230 is weatherresistant and keeps moisture from entering the housing and/or exposedinternal portions of the cable. Additionally, in some manufacturingmethods the housing 200 might be molded around the strength member 200,and such molding around the strength member might preferably be a seal.As illustrated, strength member 210 is positioned within housing 200. Itis contemplated as within the scope of the invention that strengthmember 210, while preferably positioned within the housing 200, is notnecessarily positioned within the housing 200 and might instead beexternal to (and connected to) the housing 200.

Housing 200 includes a body portion or connecting portion 203 betweenend compartments 205. The body portion 203 preferably defines threeseparate functional volumes: two splicing channels preferably separatedby an intermediate channel. Tension member 210 is preferably positionedwithin the intermediate channel. The use of distinct channels ispreferable, though not necessary, as it assists in keeping the fibersthat are “expressed” (a term referring to the industry practice ofrouting undamaged and/or unbroken cables through a closure withoutdisturbance) through the housing from getting pinched in behind thestrength member 210. Similarly, distinct channels keeps the repairfibers from getting pinched in behind the strength member.

Housing 200 could be plastic or any material that is weather and UVresistant, and of sufficient mechanical strength to protect the loosefibers within. It should be understood that it is contemplated as withinthe scope of the invention that the housing 200 might be formed withsufficient strength to act as the tension member. If housing 200 were sodesigned, there would be no need for a separate tension member 210, andeyelets 180 or other connection mechanisms would be formed integrallywith, or connected to, the ends of the housing 200. The strength of thehousing would depend on the tension of the fiber that depends on thefiber placed and the distance spanned. Typical distribution designtensions (including the NESC safety factor) for the applicable cablescan range from 300-1,300 lbs for low count cables (1-72) to 3,000-4000lbs for large cables (e.g. 288 count fiber). In applications where thespan length exceeds 500 feet, the cable tension under load couldapproach 10,000 lbs. The preferred implementation would meet typicaldesign criteria with a maximum line tension of at least 3,000 lbs, butthere could be commercial implementations with the ability to withstandand sustain substantially higher tensions (up to 20,000 lbs).

With reference to FIG. 5 there are illustrated various aspects of thearea at each end of the apparatus where fiber optic splices would bearranged. In particular, there is illustrated a cross sectional view ofone of the ends. The housing includes a door 330, a snap down lid thatextends for most, if not all, of the length of the housing andeffectively contains and seals the contents. Door 330 might beconfigured so that it is not removable and cannot fall off duringinstallation, and is hinged along the top edge 320. However, as will bediscussed further with respect to the embodiment of FIGS. 8-10, the doormight be detachable from the housing, in which case it might preferablyinclude some loops or other mechanism to keep the door 330 in the samevicinity as the rest of the housing until closing the housing (at whichpoint the loops or keeper strings could be cut or hang slack). Door 330should completely cover the internal cavity of the housing 200 and havesuitable snaps, clips, or captive bolts 340 to both secure the lid andprovide some degree of weather resistance. The door 330 would bere-openable for future access, and a weather resistant gasket or seal,such as an appropriately shaped “O-ring” would be either incorporatedinto the lid or some other adjoining portion to preclude or minimize theentry of moisture.

The compartments 205 are positioned at or substantially adjacent to theends, and are the “bulging” sections at each end that cause thesmartbone apparatus to loosely resemble a bone in appearance. Thesecompartments are preferably of sufficient size to accommodate a standardsplice closure or tray 300, which would be positioned and secured withinthe housing 200 using guides or clips 310. The tension member 210 ispreferably positioned to minimize interference with work being done inthe splice trays in the end compartments. The splice tray 300 ispreferably configured so that it does not substantially interfere withthe splices or the loose fiber routing. The splice tray 300 could beplastic with guides to securely hold fiber optic splices 350 (see FIG.7). At the termini of the end compartment, the housing defines a recessthat receives the gasket 230. This gasket provides the primary functionof creating a weather resistant seal and helping to position the cablesheath so that it can be clamped using a clamp 220 (one at each end ofthe apparatus), which would have the primary purpose of holding theentire cable assembly within the enclosure during the cable accessoperation. This clamp might be a tie point designed for a plastic tiewrap or more preferably a single point secured keeper that could beswiveled into position and tightened onto the cable sheath.

With reference to FIG. 6 there are illustrated further details of aportion of the body 203 between the end compartments 205 in which thefiber optic splicing occurs. Specifically, there are preferably at leastthree channels that run longitudinally between the two splicingcompartments. Cover 330 would also shut this section when closed andsecured with clips or other fasteners 340. One channel 280 preferablyprovides sufficient space to position the portion of the fiber opticcable 250 (see FIG. 7) that is intended to remain undisturbed. Anotherchannel 285 (see FIG. 6) encloses strength or load bearing member 210(typically a support rod or structure that holds all the tension). Thethird channel 290 receives repair fiber 260 (see FIG. 7) installedbetween the two spaced apart splice trays 300 positioned in endcompartments 205 (as illustrated in FIG. 4). It will be understood thateven if the length of body portion 203 is minimized (or even zeroed)such that the end compartments 205 are nearly adjacent, the splice traysshould be spaced apart so that there is enough tail in the fiber toreach down into the fiber splicing equipment. It will also beunderstood, however, that while preferable, it is not necessary for thehousing 200 to include multiple channels or (open) chambers between theend compartments 205. For example, the body section 203 might be asingle channel that includes the undisturbed fibers, repair fibers andtension member. Alternatively, it is contemplated as within the scope ofthe invention that the body portion 203 of the housing 200 might onlydefine two channels, one channel receiving, for example, the repairfibers, and the other channel the undisturbed fibers and the tensionmember. Each channel would preferably have means (either clips or cabletie points) to gently secure loose fiber tubes while the cover is open.

Referring again to FIG. 3, ADSS cable is fastened to smartbone apparatus120. Such attachment might preferably occur via a preformed wire deadend160 connected at an attachment position 180 (for example, a steeleyelet). Between deadends 160 and 170, the ADSS cable is inserted intothe enclosure. The outer sheath of the slack portion of the fiber opticcable would be removed and discarded to gain access to the cable'sinternal fibers and strength members. The cable would then be positionedso that the point where the outer sheath is removed is preferablypositioned entirely inside the housing 200.

With reference to FIG. 7, the cable and/or the strength members (forexample, the fiberglass strands that are interwoven into the ADSS cable)might be secured via a clamp 220 and sealed using gasket 230. FIG. 7illustrates one-half of the apparatus. The other half is preferably asubstantially mirror image of FIG. 7. With the cable secured in thesmartbone apparatus, the internal fibers 240 would be separated into twogroups: the fibers 250 that would not be disturbed and the fibers 270 tobe accessed and/or repaired. The fibers 250 designated to continuethrough the apparatus undisturbed might be positioned in channel 280.The fibers 270 that are designated for splicing and/or repair would becut, preferably mid-way between clamps 220 at each end, and routed intothe respective splicing trays 300 at each end of the apparatus. Theundisturbed fibers would be exposed but unbroken inside the enclosure,and would rejoin the cable 140 (see FIG. 3) at the opposing end in areverse manner.

A form of clam shell or otherwise closable housing (such as a separatelid that is later attached) is preferred since the cable is typicallynot severed as is the case with existing splice closures for repair.Instead, there is preferably some form of lid, rotatable or otherwise(such as a separate lid that is later attached), that may be shut andused to prevent outside environmental conditions from damaging theexposed contents of the ADSS fiber optic cable. The housing and/or lidshould include a gasket, seal, O-ring, etc. to prevent or minimize theentry of moisture that might contact the exposed cable contents. Whilethe snap fit features illustrated in, for example, FIG. 7, might beused, the door 330 is preferably shut by a more reliable clampingmechanism. For example, as is discussed below and illustrated in FIGS.8-10, the lid might include captive nuts that align with threaded boltsand nuts molded into the body of the lower portion of the housing. Whenthe lid is closed, the nuts can then be tightened to apply sufficientforce to provide adequate weather resistance.

In one application for damaged fibers, the point of damage is preferablypositioned near the center of the apparatus. Thus, the damaged fibers270 might be cut and have roughly an equal length of fiber to pull backinto each end for splicing to repair fibers 260. Both the damaged fibersand the repair fibers would be routed into the splicing tray 300, wherethe protective buffer tubes would be removed and the bare fibersexposed. Each fiber would be spliced to a repair fiber using, forexample, traditional fusion splicing. The splices 350 are securelypositioned in splice tray 300, and the repair fibers 260 are routedthrough channel 290. At the opposing end compartment 205 the repairfibers 264 are spliced to the corresponding fibers in a similar manner,thus rejoining the whole cable. It will be understood that in somerepair applications the repair fibers 260 might preferably already bepresent in the apparatus so that the installer need only install thedamaged fibers 270 in the respective splice tray 300 of each endcompartment 205. It will be further understood by those of ordinaryskill in the art that typically the installer would not run just asingle “repair fiber”, since they are usually grouped into buffer tubesof 6 or 12 fibers. If there were only one fiber damaged, an installerwould commonly route an entire buffer tube of 6 or 12 fibers throughchannel 290 and splice all of the fibers in that buffer tube.

In another application wherein designated fibers need to be accessedwithin an ADSS cable system, the fibers 270 might instead or alsoinclude fibers to be spliced to secondary fiber optic cables. In asimilar manner, the splices 350 would be secured in splice tray 300. Inthis embodiment, no repair fiber 260 would be required, as fiber opticlines for new cable would enter the enclosure via a separate opening 360or through gasket 230 if practical and attach with a bail or similardevice to the body of the housing 200 via mounting hole 190 or to theeyelet 180. Additionally, it will be understood that in someapplications one or more of the incoming fibers might be routed througha splitter with the output including one fiber that is routed through,or acts as, the repair fiber 260 and other fibers that connect throughopening 360 with the new cable that might represent an extension ofservice by the service provider.

In yet another embodiment, the apparatus can be mounted to a pole orstructure using mounting hole 190, which is of sufficient size toaccommodate pole mounting hardware and is surrounded by an internalstructural member that is preferably clamped, pressed or welded tostrength member 210. This would give the installer versatility in thelocation of mounting, depending on where the cable is damaged.

With reference to FIGS. 8-10 there are illustrated aspects of anotherembodiment similar to the embodiment of the prior figures in which likereference numerals are used to designate common features. The embodimentof FIGS. 8-10 has a separate closure lid or cover 430 that is to beattached to form a weather resistant housing. Removable/attachableclosure lid 430 extends along the length of the housing and is securedwith fasteners 444 along edge 434. The closure lid 430, when pressed byfasteners 444, interacts with a seal 450 on the internal perimeter ofthe open housing. Area 432 is the portion of the closure lid 430 that ispositioned substantially adjacent to first edge of the housing. Area 434(see FIG. 9) is positioned substantially adjacent to a second edge ofthe housing. Lid 430 is a clamp over design 442 such than when the cover430 is attached it should press or pinch on the (likely but not limitedto rubber) seal 450 to provide weather resistance to outsideenvironmental conditions. Captive fasteners 444 pass through openings445 in lid 430 and securely tighten into threaded nuts 446 withthreading that matches the bolts 444.

With reference to FIG. 11 there are illustrated various features ofanother embodiment of the present invention. As previously discussed,the embodiments of FIGS. 1-10 are illustrated as including a tensionmember that is preferably, but not necessarily, within the housing.Additionally, it was also understood that the housing itself could beformed with sufficient strength to act as the tension member, thusobviating the need for a separate component. For the embodiment of FIG.1, however, it will be understood that a separate tension member isnecessary. Again, however, the embodiment of FIG. 11 permits an ADSSfiber to be repaired, or internal fibers accessed for expansion ofservices, without disturbing other in-use fiber. In brief summary, theembodiment of FIG. 11 includes two splice compartments 1105 that arespaced apart, a tension member 1110, and a “sleeve” 1120 that enclosesan intervening volume between the spaced apart closable compartments. Aswith prior embodiments, the tension member 1110 could be, for example, afiberglass rod or a metal or even an aramid cable. If desired thetension member might include a mounting bracket 1190 thereon, similar tothe mounting bracket 190 discussed with respect to prior embodiments.The sleeve 1120 encloses the unsheathed fiber optic cable and slips intoor otherwise connects to each of the end compartments 1105 to provide aweather resistant enclosed volume to receive the unsheathed fiber opticcable.

As illustrated in FIG. 11, the smartbone is split into two separatesplice compartments 1105 that are each closable to provide a weatherresistant internal volume that will include splice trays (notillustrated in FIG. 11) similar or identical to the splice traysdiscussed with respect to prior embodiments. In the embodiment of FIG.11, however, the channel or channels between the two end compartments1105 are not an integral part of a housing. Instead, the channel orchannels are defined by a preferably separable and possibly expandableweatherproof sleeve 1120. The sleeve 1120 might clam shell or otherwisewrap around unsheathed buffer tubes. The entire assembly is attached orintegrated with the tension member 1110, which would serve the samepurpose (to carry longitudinal loading of the line). For example, asillustrated in FIG. 11, the end compartments 1105 are attached totension member 1110 by clips 1107. Similarly, the sleeve 1120 isattached to the tension member 1110 by loops or clamps 1112. The tensionmember 1110 could have a similar mounting bracket 1190 for structuremounting, and could be fiberglass or steel cable (although metalliccomponents would jeopardize the dielectric nature of the apparatus). Thetension member includes end connectors 1180 that are illustrated in FIG.11 as eyelets, though alternative structures are also contemplated aswithin the scope of the invention.

The sleeve 1120 that defines the channel(s) between the two endcompartments 1105 could be made of plastic, vinyl, or any other materialin such a manner that it would protect the exposed (unsheathed) buffertubes from outside environmental conditions such as water and UV light.The sleeve is a segment that defines a volume connecting the two endcompartments 1105 and preferably includes weatherproof fittings or seal1130 at the egress of each end compartment 1105. As previously noted,the sleeve 1120 could be rigid or flexible, and could be secured to thetension member 1110 with keepers, tape, or plastic ties 1112 as desired.

While the exposed uncut buffer tubes would need to be routed through thesleeve 1120, the fiber used to repair the damage could either be routedwithin the same connector segment, or it could be run external to thechannel and enter through a separate weather resistant end compartmententrance 1135. If routed externally and adjacent, the repair fiber 1145would need to be weather resistant, and would preferably also include aweather resistant seal as it enters the end compartment 1105 (similar tothe seal provided by gasket 230 discussed with respect to priorembodiments). In cases of network expansion, the repair fiber isinapplicable, and those egress ports might be used by the exitingexpansion fiber.

An advantage of the FIG. 11 embodiment is that the length of theconnecting channel within sleeve 1120 might be varied to addresssituations in which the fiber optic cable has multiple damage locationsseveral feet apart (thus not easily captured within the fixed lengthembodiments of FIGS. 1-10). The method for installing the apparatus ofFIG. 11 is substantially the same, but there would be some fieldassembly of the components (comprising the two splice end compartments1105, the tension member 1110, and the connector).

FIG. 11 illustrates the ADSS cable 1200 connected via preform grippingstyle connectors 1170. It is understood that it is contemplated aswithin the scope of the invention that mechanical wedge connectors orother bail type connectors could be used. Similarly, other variations orrefinements discussed with respect to prior embodiments might be equallyapplicable to the embodiment of FIG. 11, the notable exception beingthat the housing cannot serve as the tension member and thus a separatetension component must be present.

While the invention has been illustrated and described in detail in thedrawings and foregoing description, the same is to be considered asillustrative and not restrictive in character, it being understood thatonly the preferred embodiments have been shown and described and thatall changes and modifications that come within the spirit of theinventions are desired to be protected. It should be understood thatwhile the use of words such as preferable, preferably, preferred or morepreferred utilized in the description above indicate that the feature sodescribed may be more desirable, it nonetheless may not be necessary andembodiments lacking the same may be contemplated as within the scope ofthe invention, the scope being defined by the claims that follow. Inreading the claims, it is intended that when words such as “a,” “an,”“at least one,” or “at least one portion” are used there is no intentionto limit the claim to only one item unless specifically stated to thecontrary in the claim. When the language “at least a portion” and/or “aportion” is used the item can include a portion and/or the entire itemunless specifically stated to the contrary.

What is claimed is:
 1. An apparatus for accessing select fibers in anAll-Dielectric Self-Supporting (ADSS) fiber optic cable, comprising: ahousing extending from a first end to a second end, wherein the housingis weather resistant when closed by a lid; a first fiber optic splicetray positioned within the housing closer to the first end than to thesecond end; a second fiber optic splice tray positioned within thehousing and spaced apart from the first splice tray and closer to thesecond end than to the first end; a load-bearing member extendingthrough the housing and including a first mechanical connector externalto the housing near the first end and a second mechanical connectorexternal to the housing near the second end, wherein at least one of thefirst mechanical connector and the second mechanical connector isadapted to connect to ADSS fiber optic cable.
 2. The apparatus of claim1, wherein the housing has an axial length between the first end and thesecond end that is at least six feet.
 3. The apparatus of claim 1,wherein the load-bearing member is a fiberglass rod.
 4. The apparatus ofclaim 1, wherein the first mechanical connector is a closed loop and thesecond mechanical connector is a closed loop.
 5. The apparatus of claim1, wherein the first splice tray is connected to the second splice trayby a plurality of repair fibers.
 6. The apparatus of claim 1, whereinthe housing defines a first end compartment at the first end in which isthe first fiber optic splice tray is positioned and a second endcompartment at the second end in which the second fiber optic splicetray is positioned.
 7. The apparatus of claim 6, wherein the housingfurther defines a body portion connecting the first end compartment tothe second end compartment.
 8. The apparatus of claim 7, wherein thebody portion defines at least two different chambers that are each opento both the first end compartment and the second end compartment.
 9. Theapparatus of claim 7, wherein the lid is detachable from the housing topermit access to an internal cavity of the housing.
 10. The apparatus ofclaim 9, wherein the first end of the housing defines a first channelextending from a location on a first perimeter of the first end to afirst internal location on the first end, and the second end of thehousing defines a second internal channel extending from a location on asecond perimeter of the second end to an internal location on the secondend, and wherein the housing defines a first fiber optic cable openingat the first end and a second fiber optic cable opening at the secondend.
 11. The apparatus of claim 10, further including a first cableclamp attached to the housing near the first fiber optic cable openingand a second cable clamp attached to the housing near the second fiberoptic cable opening.
 12. The apparatus of claim 11, wherein the housingdefines a recess that contacts the lid when the lid is attached to closethe housing, and further including a seal member attached to one of thelid and the recess of the housing.
 13. A fiber optic cable repairapparatus, comprising a weather resistant housing including inlinespaced apart fiber optic splice trays positioned respectively in a firstend compartment and a second end compartment of the housing, and a meansfor retaining tension and connecting to an All-DielectricSelf-Supporting (ADSS) fiber optic cable.
 14. The apparatus of claim 13,wherein the means for retaining tension and connecting to an ADSS fiberoptic cable comprises a load-bearing member connected to the housing,and wherein the load-bearing member extends between a first eyeletconnector external to a first end of the housing and a second eyeletconnector external to a second opposite end of the housing.
 15. Theapparatus of claim 14, wherein the load-bearing member is a fiberglassrod.
 16. The apparatus of claim 13, where the means for retainingtension and connecting to an ADSS fiber optic cable comprises thehousing being constructed to support a load of between 1,000 lbs to20,000 lbs and the housing includes a first mechanical connectoradjacent to the first end compartment and a second mechanical connectoradjacent to the second end compartment.
 17. The apparatus of claim 13,wherein the housing has an axial length between a first end and a secondend that is at least six feet, the housing including a removable lid topermit access to an internal cavity of the housing, and wherein thehousing further defines a body portion connecting the first endcompartment to the second end compartment.
 18. The apparatus of claim13, wherein the housing has an axial length between a first end and asecond end that is at least six feet.
 19. An All-DielectricSelf-Supporting (ADSS) fiber optic cable repair apparatus comprising afirst splice tray positioned in a closable first compartment; a secondsplice tray positioned in a closable second compartment, the secondcompartment being spaced apart from the first compartment; a sleevebeing closable to define a weather resistant internal chamber thatfluidly connects a first opening in the first compartment to a secondopening in the second compartment; a tension member extending between afirst end and a second end and having a first mechanical connectorcloser to the first end then the second end and a second mechanicalconnector closer to the second end then the first end, wherein thetension member is separately connected to each of the first endcompartment and the second end compartment, and wherein at least one ofthe first mechanical connector and the second mechanical connector isadapted to connect to ADSS fiber optic cable.
 20. The apparatus of claim19, wherein each end compartment includes a lid and defines a recesswith a seal attached thereto that contacts the lid when the lid isclosed.
 21. The apparatus of claim 19, wherein the first splice tray inthe first end compartment is connected to the second splice tray in thesecond end compartment by a plurality of repair fibers.
 22. Theapparatus of claim 21, wherein the plurality of repair fibers extendbetween a third opening in the first end compartment and a fourthopening in the second end compartment, and wherein the plurality ofrepair fibers are not positioned within the internal chamber of thesleeve.
 23. The apparatus of claim 19, wherein the tension member is afiberglass rod.
 24. The apparatus of claim 19, wherein the repairapparatus is so dimensioned that the first compartment and the secondcompartment are separated by a distance sufficient to permit splicing offibers between the first splice tray and the second splice tray.
 25. Theapparatus of claim 24, wherein the repair apparatus has an axial lengthfrom the first compartment to the second compartment that is at leastsix feet.
 26. An apparatus for accessing select fibers in anAll-Dielectric Self-Supporting (ADSS) fiber optic cable, comprising: ahousing extending from a first end to a second end, wherein the housingis weather resistant when closed by a lid; a first fiber optic splicetray positioned within the housing closer to the first end than to thesecond end; a second fiber optic splice tray positioned within thehousing and spaced apart from the first splice tray and closer to thesecond end than to the first end; a load-bearing member extendingthrough the housing and including a first mechanical connector externalto the housing near the first end and a second mechanical connectorexternal to the housing near the second end, wherein at least one of thefirst mechanical connector and the second mechanical connector isadapted to connect to ADSS fiber optic cable wherein the housing is sodimensioned to have an axial length between the first end and the secondend that separates the first fiber optic splice tray and the secondfiber optic splice tray by a distance sufficient to permit splicing offibers between the two trays.
 27. The apparatus of claim 26, wherein theload-bearing member is a fiberglass rod.
 28. The apparatus of claim 26,wherein the housing has an axial length between the first end and thesecond end of at least six feet.
 29. The apparatus of claim 28, whereinthe first splice tray is connected to the second splice tray by aplurality of repair fibers.
 30. The apparatus of claim 28, wherein thehousing defines a first end compartment at the first end in which is thefirst fiber optic splice tray is positioned and a second end compartmentat the second end in which the second fiber optic splice tray ispositioned.
 31. A fiber optic cable repair apparatus, comprising ahousing including inline spaced apart fiber optic splice trayspositioned respectively in a first end compartment and a second endcompartment of the housing, and a repair means for retaining tension andconnecting to an All-Dielectric Self-Supporting (ADSS) fiber opticcable, wherein the housing is so dimensioned that the inline spacedapart fiber optic splice trays are separated by a distance sufficient topermit splicing of fibers between the two trays.
 32. The apparatus ofclaim 31, wherein the housing has an axial length between a first endand a second end that is at least six feet.
 33. The apparatus of claim32, where the means for retaining tension and connecting to an ADSSfiber optic cable comprises the housing being constructed to support aload of between 1,000 lbs to 20,000 lbs and the housing includes a firstmechanical connector adjacent to the first end compartment and a secondmechanical connector adjacent to the second end compartment.
 34. Theapparatus of claim 32, wherein the means for retaining tension andconnecting to an ADSS fiber optic cable comprises a load-bearing memberconnected to the housing, and wherein the load-bearing member extendsbetween a first eyelet connector external to a first end of the housingand a second eyelet connector external to a second opposite end of thehousing.
 35. The apparatus of claim 34, wherein the load-bearing memberis a fiberglass rod.